PhD in Neuroengineering

McKelvey Engineering's doctoral neuroengineering program, created in collaboration with WashU Medicine, will train you in developing new ways of connecting the brain with technology, in improving and augmenting human health and in advancing our understanding of the brain. McKelvey’s multidisciplinary program leverages the unique culture of collaboration at Washington University in St. Louis and its formidable expertise in medicine, neuroscience, mathematics, computer science, electrical engineering and biomedical engineering.

Applications open Sept. 1

Breakthroughs driven by collaboration

Neuroengineering powers breakthroughs across disciplines, including neural interfaces and technologies, neuromodulation, computation and neural modeling, neuroAI, brain-inspired and neuromorphic computing and emerging platforms such as neuro-organoids and therapeutics.

Advances like this are possible because neuroengineering connects disciplines, bringing together the brightest minds in medicine and technology — and such cross-displine collaboration is a profound strength at WashU.  

Learn from world-class faculty across WashU

You'll work with leading faculty members from across the university, including from WashU Medicine, home to one of the top neuroscience enterprises in the world. The neuroengineering program includes dozens of researchers from: 

The program leverages McKelvey's and WashU's deep expertise

Close collaboration with researchers at the world-class WashU Medicine will give you unusually robust access to clinicians, patients and real-world medical challenges. 

WashU is is a global leader in research on Alzheimer's disease, renowned for pioneering early detection through highly accurate blood tests and for developing novel therapeutic strategies. WashU research in neurology and in neurosurgery are second and third, respectively, in funding from the National Institutes of Health.

In addition to clinical applications, McKelvey neuroengineers also advance human-computer interaction, including artificial intelligence and neuromorphic computing.

You will not only study the brain but also invent tools and systems that will shape the future of neuroscience, brain health, advanced prosthetics and brain-inspired algorithms and devices.

ShiNung Ching, chair of the Preston M. Green Department of Electrical & Systems Engineering, and Barani Raman, the Dennis & Barbara Kessler Professor in the Department of Biomedical Engineering, head the program.

Applications open Sept. 1

Apply for the program starting Sept. 1 for the fall 2027 semester.

Related news

Prime time for fiber optics to take a deep dive into brain circuits

fiber optics

A new fiber-optic device to study how large-scale brain circuits drive behavior.

Read the story

Brain modeling of anesthetic effects to predict antidepressant response

personalized brain modeling

ShiNung Ching, Ben Julian Palanca look at brain dynamics, neural circuits as clues.

Read the story

WashU Expert: Synthetic torpor has potential to redefine medicine

torpor

Hong Chen’s lab advancing synthetic torpor with focused ultrasound.

Read the story

Brain decoder controls spinal cord stimulation

brain wave decoder

Ismael Seáñez’s lab develops brain wave decoder that may help in spinal cord injury rehabilitation.

Read the story

WashU researchers map individual brain dynamics

personalized brain modeling

ShiNung Ching and Todd Braver develop method to create brain models with applications to personalized medicine.

Read the story

New technologies to help those with spinal cord injuries move

novel technologies

Ismael Seáñez, Peter Brunner, Jing Wang, Simon Haroutounian to collaborate on the work.

Read the story